library(Seurat)
library(plyr)
library('biomaRt')
data <- readRDS('../output/10x-180831')

Data loading

bulk.df <- read.table('../data/181128-All data cells_for pascal.txt', sep='\t', header=T, stringsAsFactors = F, row.names=1, check.names=F)
cannot open file '../data/181128-All data cells_for pascal.txt': No such file or directoryError in file(file, "rt") : cannot open the connection

Function from PT to map gene symbols to ensembl ID’s.

hs_add_gene_symbol_from_ensembl_ids <- function(df, colname_geneids_from="gene", colname_geneids_to="ensembl_gene_id") {
  ### INPUT df: a tibble/data.frame with the column 'colname_geneids_from' with human ensembl gene ids.
  ### OUTOUT df 
  # returns a tibble with human gene symbols added to the column 'colname_geneids_to'. 
  # Genes that did not map have NA values in the 'colname_geneids_to' column.
  # If there are duplicated gene IDs in 'colname_geneids_to', then all but the first of the duplicated elements will be marked as NA.
  
  df <- as.data.frame(df) # convert to df to ensure the the below operations work.
  
  file.mapping <- '/projects/pytrik/sc_adipose/analyze_10x_fluidigm/gene_mapping/gene_mapping.GRCh37.87/Homo_sapiens.GRCh37.87.gene_name_version2ensembl.txt'
  #file.mapping <- "/raid5/projects/timshel/sc-genetics/sc-genetics/data/gene_annotations/GRCh38.ens_v90.gene_name_version2ensembl.txt.gz"
  df.mapping <- suppressMessages(read_tsv(file.mapping))
  
  genes_mapped <- df.mapping$gene_name_optimal[match(df[,colname_geneids_from], df.mapping$ensembl_gene_id)]
  bool_dups <- duplicated(genes_mapped, incomparables=NA) # marks elements with smaller subscripts as duplicates
  # ^ incomparables=NA: 'excluding' NA when counting duplicated. NA values will not be compared. (That is, duplicated() returns FALSE for NA values)
  # ^ duplicated(c(1,1,2,NA,NA,NA)) returns FALSE  TRUE FALSE FALSE  TRUE  TRUE.
  # ^ duplicated(c(1,1,2,NA,NA,NA), incomparables=NA) returns FALSE  TRUE FALSE FALSE FALSE FALSE.
  print(sprintf("Number of genes mapped: %s",sum(!is.na(genes_mapped))))
  print(sprintf("Number of genes not mapped: %s",sum(is.na(genes_mapped)))) # number of not mapped genes
  print(sprintf("Number of genes with a NON-unique mapping (genes with duplicated ensembl gene IDs after mapping): %s",sum(bool_dups)))
  ### set duplicated rows (with smaller subscripts) as NA
  genes_mapped[bool_dups] <- NA
  print(sprintf("Total mapping stats: %s genes have no mapping (not mapped + duplicates) out of %s input genes.", sum(is.na(genes_mapped)), length(genes_mapped)))
  print(sprintf("Total genes mapped (non NA genes): %s", sum(!is.na(genes_mapped))))
  df <- df %>% mutate(!!rlang::sym(colname_geneids_to):=genes_mapped) %>% as.tibble()
  # filter(!is.na(gene)) %>% # remove all rows without mapping
  # filter(!duplicated(gene)) # keep only one of the duplicated pair (if any)
  print(sprintf("Returning tibble with the column '%s' added where all gene identifiers unique. Unmapped genes have NA values", colname_geneids_to))
  return(df)
}

Filter the bulk data and sc data to only contain genes that are present in both. First, convert rownames bulk data to gene symbols.

ids2symbols <- hs_add_gene_symbol_from_ensembl_ids(data.frame(gene=rownames(bulk.df)), colname_geneids_to='gene_symbol')
[1] "Number of genes mapped: 53203"
[1] "Number of genes not mapped: 6904"
[1] "Number of genes with a NON-unique mapping (genes with duplicated ensembl gene IDs after mapping): 0"
[1] "Total mapping stats: 6904 genes have no mapping (not mapped + duplicates) out of 60107 input genes."
[1] "Total genes mapped (non NA genes): 53203"
[1] "Returning tibble with the column 'gene_symbol' added where all gene identifiers unique. Unmapped genes have NA values"
bulk.df.filtered <- bulk.df[!is.na(ids2symbols$gene_symbol),]
rownames(bulk.df.filtered) <- ids2symbols$gene_symbol[!is.na(ids2symbols$gene_symbol)]

Then filter 10x data and bulk data on intersecting genes.

sc.df.filtered <- sc.df[which(rownames(sc.fd) %in% intersecting_genes),]
Error: object 'sc.df' not found
bulk <- CreateSeuratObject(bulk.df.filtered2, project='Bulk')
sc10x <- CreateSeuratObject(sc.df.filtered.cols, project='10x')

Add metadata

x <- strsplit(rownames(bulk@meta.data), '\\.')
metadata <- data.frame(do.call(rbind, x))
bulk@meta.data$type <- tolower(metadata$X1)
bulk@meta.data$stimulated <- metadata$X3
bulk@meta.data$average <- metadata$X2
bulk <- SubsetData(bulk, cells.use=rownames(bulk)[bulk@meta.data$average != 'AVG'])
bulk@meta.data$average <- NULL
bulk@meta.data

rr #saveRDS(bulk, ‘../output/bulk-seurat’)

bulk <- RunPCA(bulk)
You're computing too large a percentage of total singular values, use a standard svd instead.
[1] "PC1"
 [1] "ECHDC2"    "MVK"       "ACY1"      "NAA40"     "SUOX"      "ANO8"      "TXNRD2"   
 [8] "OPLAH"     "TM7SF2"    "DGCR6"     "SREBF1"    "PPP1R16A"  "ELMOD3"    "THRSP"    
[15] "PLEKHH3"   "HIST2H2BE" "ACADS"     "ACSS2"     "D2HGDH"    "ECHS1"     "HOMEZ"    
[22] "PNPLA3"    "ZBTB7B"    "HRASLS5"   "ACHE"      "MMP15"     "NECAB3"    "RAB40C"   
[29] "LPIN1"     "YBX2"     
[1] ""
 [1] "SEC24D"   "CUL4B"    "CBLB"     "EPS8"     "EIF1B"    "URB1"     "BAG2"    
 [8] "GARS"     "UGDH"     "CREB3L2"  "C12orf23" "PPRC1"    "SLC35C1"  "DKK1"    
[15] "FHL2"     "HSPH1"    "RFK"      "SASH1"    "NCOA7"    "MEDAG"    "RAI14"   
[22] "ITPRIP"   "FAM57A"   "NIP7"     "SLC25A32" "EDNRB"    "TES"      "TXNRD1"  
[29] "FGF2"     "DLC1"    
[1] ""
[1] ""
[1] "PC2"
 [1] "COL3A1"    "HEXDC"     "COL8A1"    "NRN1"      "HOXC8"     "COL11A1"   "HOXC10"   
 [8] "COL5A1"    "NRCAM"     "STON1"     "KIAA1324L" "FARP1"     "DPT"       "SLIT2"    
[15] "COL1A1"    "THY1"      "CRNDE"     "HDAC9"     "LRP5"      "EMILIN1"   "CDC42EP3" 
[22] "MYO1D"     "FBN2"      "MYLK"      "HOXC6"     "HOXB6"     "ITPR1"     "NRP2"     
[29] "SMAP2"     "MICAL1"   
[1] ""
 [1] "CDK15"   "MAP3K1"  "SLC4A4"  "GPD2"    "HSPB8"   "ACSL5"   "AGT"     "KCNK3"  
 [9] "MEST"    "APEX2"   "FABP3"   "CES2"    "ADPRH"   "SIX1"    "PLA2G4A" "FHL1"   
[17] "CYCS"    "SLC24A3" "CA12"    "PFKM"    "DNAJA4"  "NDUFAF4" "KLHL29"  "OSR1"   
[25] "MFI2"    "ALPL"    "APLN"    "PPA1"    "TUBA4A"  "SLC12A7"
[1] ""
[1] ""
[1] "PC3"
 [1] "CBX6"      "CACHD1"    "DPYSL2"    "TENC1"     "IL16"      "PRRX1"     "CBR3"     
 [8] "TGFB2"     "SNAI2"     "CORO2B"    "FAXDC2"    "SLC12A6"   "PSIP1"     "PXN"      
[15] "UACA"      "EEF2K"     "AHRR"      "CALHM2"    "C1RL"      "IFFO1"     "BBX"      
[22] "UBE2L6"    "ISLR"      "CORO6"     "IFIT1"     "CARHSP1"   "PPM1K"     "SMG6"     
[29] "CBX7"      "RAMP2-AS1"
[1] ""
 [1] "ACSL4"    "C19orf12" "FZD4"     "DIXDC1"   "PITPNC1"  "PMEPA1"   "PRKAG2"  
 [8] "CPEB4"    "SMOX"     "KIAA0922" "TXLNG"    "TUBB2A"   "SLC22A3"  "FABP5"   
[15] "FABP4"    "RASSF3"   "TACC2"    "RCE1"     "HCAR2"    "SLC25A13" "SLC19A3" 
[22] "PHLDB2"   "EHD4"     "FAM89A"   "GAB2"     "DUSP4"    "AMIGO2"   "SYAP1"   
[29] "ZRANB1"   "CDC42EP4"
[1] ""
[1] ""
[1] "PC4"
 [1] "TNFRSF21"  "PRSS23"    "SLC6A6"    "PDPR"      "FIGF"      "RPA2"      "C7"       
 [8] "TMEM37"    "ABCG1"     "SRGAP1"    "SERPINB8"  "CD97"      "HMGA1"     "ALDH1A3"  
[15] "CLSTN2"    "PANX1"     "LINC00152" "ITGA3"     "ELK3"      "ABCA1"     "CDH13"    
[22] "USP53"     "SH2B3"     "THBD"      "CBFB"      "MICAL2"    "IRF1"      "EFHD1"    
[29] "GXYLT2"    "WDR35"    
[1] ""
 [1] "KIAA1161" "GABPB2"   "NCALD"    "PLAGL1"   "TMUB1"    "SYNM"     "HOOK2"   
 [8] "NHSL1"    "MAST4"    "EFS"      "APBB3"    "AMPH"     "SLC16A14" "CAB39L"  
[15] "NXN"      "CILP"     "LIN7A"    "ARMCX2"   "ASAP3"    "USP54"    "CDKL5"   
[22] "NAP1L5"   "PPDPF"    "SLC6A15"  "ADAM33"   "PITPNM1"  "CLIP2"    "SH3PXD2A"
[29] "SYNE2"    "GADD45G" 
[1] ""
[1] ""
[1] "PC5"
 [1] "PPM1L"        "GSTM1"        "TENM4"        "PHKA1"        "MRO"         
 [6] "PCK2"         "TRIM16L"      "PSAT1"        "AFAP1L1"      "PRG4"        
[11] "RP1-193H18.3" "PM20D1"       "ABCC3"        "SLC2A1"       "CALCRL"      
[16] "CPM"          "GSTM2"        "STARD7"       "MET"          "LIN7A"       
[21] "ATF5"         "CYP4V2"       "SESN3"        "DIRAS1"       "TNFRSF10D"   
[26] "PHKG1"        "ITGA3"        "LRP8"         "PHYHD1"       "TBX15"       
[1] ""
 [1] "AEBP1"    "MAF"      "SMOC2"    "FLRT2"    "LRRC32"   "CTSK"     "SLC40A1" 
 [8] "RUNX1"    "FBLN5"    "THBS2"    "LPCAT1"   "ACKR4"    "FAM180A"  "CLEC2B"  
[15] "TMEM200A" "IFITM1"   "NFKB2"    "GPR176"   "TMEM150C" "SEMA5A"   "TMEM59L" 
[22] "FBLN1"    "MFAP2"    "FAP"      "ATHL1"    "NFATC4"   "NOVA1"    "BASP1"   
[29] "GPRC5B"   "KCNK2"   
[1] ""
[1] ""

type_stimulated_combined <- as.vector(apply(bulk@meta.data[,c('type', 'stimulated')], 1, function(x){
  print(x[['type']])
  print(x[['stimulated']])
}))
[1] "brown"
[1] "Non"
[1] "brown"
[1] "NE-stim"
[1] "brown"
[1] "Non"
[1] "brown"
[1] "NE-stim"
[1] "brown"
[1] "Non"
[1] "brown"
[1] "NE-stim"
[1] "brown"
[1] "Non"
[1] "brown"
[1] "NE-stim"
[1] "brown"
[1] "Non"
[1] "brown"
[1] "NE-stim"
[1] "white"
[1] "Non"
[1] "white"
[1] "NE-stim"
[1] "white"
[1] "Non"
[1] "white"
[1] "NE-stim"
[1] "white"
[1] "Non"
[1] "white"
[1] "NE-stim"
[1] "white"
[1] "Non"
[1] "white"
[1] "NE-stim"
[1] "white"
[1] "Non"
[1] "white"
[1] "NE-stim"
[1] "brown"
[1] "Non"
[1] "brown"
[1] "NE-stim"
[1] "white"
[1] "Non"
[1] "white"
[1] "NE-stim"

#saveRDS(bulk, '../output/bulk-seurat')

Add metadata to sc10x Seurat object.

all_metadata <- all_metadata[match(rownames(sc10x), rownames(all_metadata)),]
Error: object 'all_metadata' not found
#saveRDS(sc10x, '../output/10x-180831-filtered-genes-bulk')

Bulk and sc data merged

Performed preprocessing (normalization, scaling, PCA, t-SNE) on the merged Seurat object (bulk + sc)

Aligned.

GTEx

load('/data/rna-seq/gtex/v7-seurat_objs/gtex.seurat_obj.gene_tpm.RData')
table(seurat_obj@meta.data$SMTS)

 Adipose Tissue   Adrenal Gland         Bladder           Blood 
            797             190              11             537 
   Blood Vessel           Brain          Breast    Cervix Uteri 
            913            1671             290              11 
          Colon       Esophagus  Fallopian Tube           Heart 
            507            1021               7             600 
         Kidney           Liver            Lung          Muscle 
             45             175             427             564 
          Nerve           Ovary        Pancreas       Pituitary 
            414             133             248             183 
       Prostate  Salivary Gland            Skin Small Intestine 
            152              97            1203             137 
         Spleen         Stomach          Testis         Thyroid 
            162             262             259             446 
         Uterus          Vagina 
            111             115 
table(seurat_obj@meta.data$SMTSD)

                   Adipose - Subcutaneous 
                                      442 
             Adipose - Visceral (Omentum) 
                                      355 
                            Adrenal Gland 
                                      190 
                           Artery - Aorta 
                                      299 
                        Artery - Coronary 
                                      173 
                          Artery - Tibial 
                                      441 
                                  Bladder 
                                       11 
                         Brain - Amygdala 
                                      100 
 Brain - Anterior cingulate cortex (BA24) 
                                      121 
          Brain - Caudate (basal ganglia) 
                                      160 
            Brain - Cerebellar Hemisphere 
                                      136 
                       Brain - Cerebellum 
                                      173 
                           Brain - Cortex 
                                      158 
             Brain - Frontal Cortex (BA9) 
                                      129 
                      Brain - Hippocampus 
                                      123 
                     Brain - Hypothalamus 
                                      121 
Brain - Nucleus accumbens (basal ganglia) 
                                      147 
          Brain - Putamen (basal ganglia) 
                                      124 
       Brain - Spinal cord (cervical c-1) 
                                       91 
                 Brain - Substantia nigra 
                                       88 
                  Breast - Mammary Tissue 
                                      290 
      Cells - EBV-transformed lymphocytes 
                                      130 
          Cells - Transformed fibroblasts 
                                      343 
                      Cervix - Ectocervix 
                                        6 
                      Cervix - Endocervix 
                                        5 
                          Colon - Sigmoid 
                                      233 
                       Colon - Transverse 
                                      274 
    Esophagus - Gastroesophageal Junction 
                                      244 
                       Esophagus - Mucosa 
                                      407 
                   Esophagus - Muscularis 
                                      370 
                           Fallopian Tube 
                                        7 
                 Heart - Atrial Appendage 
                                      297 
                   Heart - Left Ventricle 
                                      303 
                          Kidney - Cortex 
                                       45 
                                    Liver 
                                      175 
                                     Lung 
                                      427 
                     Minor Salivary Gland 
                                       97 
                        Muscle - Skeletal 
                                      564 
                           Nerve - Tibial 
                                      414 
                                    Ovary 
                                      133 
                                 Pancreas 
                                      248 
                                Pituitary 
                                      183 
                                 Prostate 
                                      152 
      Skin - Not Sun Exposed (Suprapubic) 
                                      387 
           Skin - Sun Exposed (Lower leg) 
                                      473 
         Small Intestine - Terminal Ileum 
                                      137 
                                   Spleen 
                                      162 
                                  Stomach 
                                      262 
                                   Testis 
                                      259 
                                  Thyroid 
                                      446 
                                   Uterus 
                                      111 
                                   Vagina 
                                      115 
                              Whole Blood 
                                      407 
### CONVERT ID's TO SYMBOLS
ids2symbols <- hs_add_gene_symbol_from_ensembl_ids(data.frame(gene=rownames(gtex_adipose_df)), colname_geneids_to='gene_symbol')
[1] "Number of genes mapped: 54038"
[1] "Number of genes not mapped: 2164"
[1] "Number of genes with a NON-unique mapping (genes with duplicated ensembl gene IDs after mapping): 0"
[1] "Total mapping stats: 2164 genes have no mapping (not mapped + duplicates) out of 56202 input genes."
[1] "Total genes mapped (non NA genes): 54038"
`as.tibble()` is deprecated, use `as_tibble()` (but mind the new semantics).
This warning is displayed once per session.
[1] "Returning tibble with the column 'gene_symbol' added where all gene identifiers unique. Unmapped genes have NA values"
### CONVERT ID's TO SYMBOLS
ids2symbols <- hs_add_gene_symbol_from_ensembl_ids(data.frame(gene=rownames(gtex_adipose_df)), colname_geneids_to='gene_symbol')
[1] "Number of genes mapped: 54038"
[1] "Number of genes not mapped: 2164"
[1] "Number of genes with a NON-unique mapping (genes with duplicated ensembl gene IDs after mapping): 0"
[1] "Total mapping stats: 2164 genes have no mapping (not mapped + duplicates) out of 56202 input genes."
[1] "Total genes mapped (non NA genes): 54038"
[1] "Returning tibble with the column 'gene_symbol' added where all gene identifiers unique. Unmapped genes have NA values"
gtex_adipose.filtered <- gtex_adipose_df[!is.na(ids2symbols$gene_symbol),]
gtex <- AddMetaData(gtex, gtex_adipose@meta.data)
table(gtex@meta.data$SMTSD)

      Adipose - Subcutaneous Adipose - Visceral (Omentum) 
                         442                          355 

merged_bulk_gtex <- MergeSeurat(bulk, gtex, )
merged_bulk_gtex <- ScaleData(merged_bulk_gtex)
Scaling data matrix

  |                                                                                      
  |                                                                                |   0%
  |                                                                                      
  |================================================================================| 100%
merged_bulk_gtex <- FindVariableGenes(merged_bulk_gtex)
Calculating gene means
0%   10   20   30   40   50   60   70   80   90   100%
[----|----|----|----|----|----|----|----|----|----|
**************************************************|
Calculating gene variance to mean ratios
0%   10   20   30   40   50   60   70   80   90   100%
[----|----|----|----|----|----|----|----|----|----|
**************************************************|

merged_bulk_gtex <- RunPCA(merged_bulk_gtex)
[1] "PC1"
 [1] "BIRC6"    "DMXL1"    "MIA3"     "HUWE1"    "TAOK1"    "IREB2"    "NCKAP1"  
 [8] "SMG1"     "DYNC1H1"  "SBNO1"    "OPA1"     "SETD7"    "HOOK3"    "HECTD1"  
[15] "KMT2C"    "NOTCH2"   "DOCK7"    "MAPK1"    "PRKDC"    "TNPO1"    "TRIP12"  
[22] "SNX13"    "SCAF11"   "MED13"    "KIAA1715" "NF1"      "KIF1B"    "RAB3GAP2"
[29] "CAND1"    "GAPVD1"  
[1] ""
 [1] "ZFP36"    "JUNB"     "XBP1"     "PCDH1"    "ID1"      "TMEM88"   "IGFBP2"  
 [8] "SOX17"    "GADD45B"  "NOTCH4"   "NOSTRIN"  "NDUFA4L2" "EPHA2"    "PTP4A3"  
[15] "VAMP8"    "C11orf96" "CSRNP1"   "PSMB9"    "ICAM3"    "FLT4"     "PPAN"    
[22] "RASGRP2"  "ARID5A"   "TMEM255B" "FOS"      "ARAP3"    "PTPRB"    "TYROBP"  
[29] "LAPTM5"   "HSPB1"   
[1] ""
[1] ""
[1] "PC2"
 [1] "SLC22A17" "DTX3"     "OLFML1"   "CD27-AS1" "ARMCX2"   "GLT8D2"   "PRRT2"   
 [8] "AMT"      "BTN3A3"   "BTN3A1"   "SEPT5"    "C1orf54"  "DPYSL3"   "CHRD"    
[15] "RERG"     "ISYNA1"   "MAP3K12"  "SCARA3"   "RARG"     "CDR2"     "ASPN"    
[22] "GUCY1B3"  "PSMB9"    "EPS8L2"   "FAM102A"  "IL11RA"   "ATP1B2"   "ABCA10"  
[29] "FAS"      "CPXM2"   
[1] ""
 [1] "MARC1"        "ACSL1"        "ECHDC3"       "CIDEC"        "RP1-193H18.3"
 [6] "ADIPOQ"       "AZGP1"        "FASN"         "RBP4"         "SLC25A1"     
[11] "MRAP"         "ACACB"        "PC"           "GPT"          "ABCD1"       
[16] "HEBP2"        "PFKFB3"       "GYG2"         "GGCT"         "PGD"         
[21] "SLC19A3"      "GLUL"         "CPM"          "GPD1"         "NAT8L"       
[26] "HSPB7"        "RP11-134G8.8" "TMEM132C"     "SLC6A8"       "SHMT1"       
[1] ""
[1] ""
[1] "PC3"
 [1] "HOXC9"         "TBX15"         "HOXC10"        "LGI4"          "NTRK2"        
 [6] "RP11-983P16.4" "LMOD1"         "HOXC6"         "NOVA1"         "CLEC3B"       
[11] "SMOC1"         "RCAN2"         "WISP2"         "STARD9"        "ILF3-AS1"     
[16] "OLFML2A"       "MLPH"          "CAMK2G"        "SNX7"          "XG"           
[21] "EBF3"          "ACTA2-AS1"     "FAM69B"        "KCNAB1"        "RP11-141O15.1"
[26] "CAB39L"        "PPL"           "RRAD"          "TRIM52-AS1"    "CXCL14"       
[1] ""
 [1] "GFPT2"    "RARRES1"  "TIMP1"    "PIM1"     "GATA6"    "ALDH1A3"  "PDPN"    
 [8] "HP"       "FKBP11"   "NAMPT"    "THBS1"    "WT1"      "HAS1"     "KRT8"    
[15] "SNHG15"   "SGK1"     "RDH10"    "CLCF1"    "TNFSF14"  "KRT18"    "PVR"     
[22] "NR2F1"    "SERPINB9" "C7"       "ATP1B3"   "GPRC5A"   "PLAUR"    "CD200"   
[29] "SLPI"     "XBP1"    
[1] ""
[1] ""
[1] "PC4"
 [1] "HOXB3"      "HOXB-AS1"   "HOXA4"      "AC022007.5" "MMP15"      "FGF1"      
 [7] "RGS11"      "TSTD1"      "KCNIP2"     "BNC1"       "VLDLR"      "HOXA5"     
[13] "AC005550.4" "RASSF7"     "MEIS1"      "CARNS1"     "MDFI"       "MST1"      
[19] "C14orf180"  "C19orf33"   "KLK11"      "TYRO3"      "MSLN"       "BCHE"      
[25] "PTN"        "PRICKLE4"   "ITLN1"      "QPRT"       "ANXA3"      "SLC40A1"   
[1] ""
 [1] "ELL"      "UPP1"     "SPHK1"    "SERPINE1" "ELL2"     "SLC39A14" "SPSB1"   
 [8] "HAPLN3"   "PANX1"    "OSMR"     "GADD45B"  "UAP1"     "ETV6"     "FEM1C"   
[15] "RND3"     "PCSK7"    "CRISPLD2" "PTX3"     "ITPKC"    "TNC"      "BASP1"   
[22] "SLCO4A1"  "C11orf96" "ANPEP"    "FHL3"     "MT1X"     "NAMPT"    "C10orf10"
[29] "SAP30"    "SBNO2"   
[1] ""
[1] ""
[1] "PC5"
 [1] "TYROBP"   "DOK2"     "CD68"     "IFI30"    "ITGB2"    "HAVCR2"   "LRRC25"  
 [8] "UNC93B1"  "PTPN6"    "ADAP2"    "ARHGAP30" "MSR1"     "HCST"     "CSF1R"   
[15] "LCP1"     "FPR3"     "CYTH4"    "NCKAP1L"  "LAIR1"    "LGALS9"   "C3AR1"   
[22] "WAS"      "CCR1"     "C1QB"     "RNASET2"  "MS4A7"    "FGD2"     "PLCB2"   
[29] "GM2A"     "CECR1"   
[1] ""
 [1] "NPNT"     "HEYL"     "SORBS2"   "CACNA1H"  "CASQ2"    "PPP1R14A" "CNN1"    
 [8] "SPEG"     "LTBP1"    "HES4"     "AMIGO2"   "PLN"      "ADRA2C"   "TPM2"    
[15] "SLMAP"    "MYH11"    "ITGA8"    "EFHD1"    "CSRP1"    "PDLIM3"   "C11orf96"
[22] "CSDC2"    "SLC38A1"  "TMOD1"    "RNF152"   "SYNM"     "TPD52L1"  "SGCA"    
[29] "SLCO2A1"  "LDB3"    
[1] ""
[1] ""

merged_bulk_gtex@meta.data$orig.ident[merged_bulk_gtex@meta.data$orig.ident == 'SeuratProject'] <- 'GTEx'
saveRDS(merged_bulk_gtex, '../output/bulk-gtex-merged')

Merge with 10x data

#TODO for bulk analysis:
#Create subset of 10x-180831 data: 100 cells from oxidative, 100 cells from ECM branch. Then align with bulk and GTEx.
subset <- SubsetData(seurobj, cells.use=rownames(seurobj@meta.data)[seurobj@meta.data$branch_high_res == 'ECM_top10' | seurobj@meta.data$branch_high_res == 'oxidative_top10'])
merged <- MergeSeurat(subset, merged_bulk_gtex)
Performing log-normalization
0%   10   20   30   40   50   60   70   80   90   100%
[----|----|----|----|----|----|----|----|----|----|
**************************************************|
merged <- FindVariableGenes(merged)
Calculating gene means
0%   10   20   30   40   50   60   70   80   90   100%
[----|----|----|----|----|----|----|----|----|----|
**************************************************|
Calculating gene variance to mean ratios
0%   10   20   30   40   50   60   70   80   90   100%
[----|----|----|----|----|----|----|----|----|----|
**************************************************|

merged <- ScaleData(merged)
Scaling data matrix

  |                                                                                      
  |                                                                                |   0%
  |                                                                                      
  |================================================================================| 100%
merged <- RunPCA(merged)
[1] "PC1"
 [1] "UQCR11.1"  "MALAT1"    "NEAT1"     "COX7B"     "UQCR10"    "DBI"       "DDT"      
 [8] "MGST3"     "MTRNR2L8"  "ADIRF"     "ETFB"      "MIF"       "ATOX1"     "MPC2"     
[15] "NDUFB8.1"  "HEBP2"     "MINOS1"    "GCSH"      "NDUFC2"    "CHCHD10"   "MTRNR2L10"
[22] "FDPS"      "LINC00116" "CISD3"     "CYCS"      "NDUFS6"    "NDUFAB1"   "FABP5"    
[29] "FADS1"     "CKS1B"    
[1] ""
 [1] "CD74"     "HLA-DRB1" "HLA-DRA"  "MT-ND4L"  "C1QA"     "CLDN5"    "BHLHE40" 
 [8] "NFKBIA"   "ADAMTS1"  "C11orf96" "C10orf10" "RBP7"     "IGFBP3"   "MT-ND6"  
[15] "C1QB"     "ACTA2"    "GADD45B"  "C3"       "GPX3"     "SLC2A3"   "TM4SF1"  
[22] "IFI30"    "CSRP1"    "C7"       "TGM2"     "NR4A1"    "IFI27"    "MT-ATP6" 
[29] "HLA-DRB5" "CD163"   
[1] ""
[1] ""
[1] "PC2"
 [1] "FASN"      "RBP4"      "G0S2"      "DGAT2"     "SCD"       "GPAM"      "LPL"      
 [8] "ACSS2"     "INSIG1"    "ACLY"      "VKORC1L1"  "MT-ND5"    "UCP2"      "SREBF1"   
[15] "MT-ATP6"   "CHCHD10"   "THRSP"     "FABP5"     "PDXK"      "IDI1"      "HSD17B12" 
[22] "ALDH1L1"   "HK2"       "DLD"       "FADS1"     "HMGCS1"    "MVD"       "C14orf180"
[29] "LPIN1"     "MT-ND6"   
[1] ""
 [1] "MFAP5"         "DCN"           "PLAC9"         "CST3"          "MGP"          
 [6] "CLDN11"        "CFD"           "RP11-572C15.6" "FBN1"          "PDLIM2"       
[11] "IGFBP6"        "PDGFRA"        "TIMP1"         "IGFBP5"        "CYP1B1"       
[16] "FN1"           "TMEM45A"       "CRLF1"         "EMP3"          "MIR4435-1HG"  
[21] "SPOCK1"        "COL6A3"        "LINC00152"     "COL1A1"        "LOX"          
[26] "MARCKS"        "FGF7"          "OSR2"          "ABCA6"         "RP11-14N7.2"  
[1] ""
[1] ""
[1] "PC3"
 [1] "MT2A"     "MT1E"     "MT1M"     "MT1G"     "RARRES1"  "ITLN1"    "KRT8"    
 [8] "KRT18"    "MSLN"     "MT1X"     "KRT19"    "UPK3B"    "RPL22L1"  "SLPI"    
[15] "HSPB1"    "TIMP1"    "LY6E"     "CYBA"     "MT1A"     "IL6"      "ADAMTS4" 
[22] "EGR1"     "C7"       "CISD3"    "CXCL2"    "CXCL1"    "MARCKSL1" "NDUFC2"  
[29] "LIF"      "FOSB"    
[1] ""
 [1] "RPS17L"  "SLC2A5"  "LRP1"    "PEG10"   "COL12A1" "ELOVL6"  "NRCAM"   "FADS2"  
 [9] "DYNC1H1" "MME"     "ME1"     "ACSS2"   "NOTCH2"  "ZNF117"  "ECHDC1"  "COL6A3" 
[17] "TNC"     "LAMA2"   "GPAM"    "TEAD1"   "DST"     "VCAN"    "FN1"     "SETD7"  
[25] "LPIN1"   "SVEP1"   "ASPH"    "DDR2"    "COL3A1"  "NDUFS1" 
[1] ""
[1] ""
[1] "PC4"
 [1] "RARRES1" "KRT8"    "LIF"     "KRT18"   "CXCL1"   "HP"      "MSLN"    "THBS1"  
 [9] "ITLN1"   "SLPI"    "GFPT2"   "KRT19"   "UPK3B"   "IL6"     "IL8"     "NAMPT"  
[17] "TIMP1"   "GREM1"   "CCL2"    "PIM1"    "MT1G"    "ADAMTS4" "HMOX1"   "ALDH1A3"
[25] "CXCL2"   "OGN"     "IER3"    "FOSB"    "SOCS3"   "EGR1"   
[1] ""
 [1] "CXCL14"   "LMOD1"    "CLEC3B"   "WISP2"    "MUSTN1"   "MYH11"    "MMP3"    
 [8] "ACTG2"    "LEP"      "MYOC"     "CLDN5"    "CNN1"     "ACTA2"    "S100B"   
[15] "DES"      "COMP"     "HLA-DRA"  "NR1D1"    "HLA-DRB1" "CD74"     "PI16"    
[22] "HLA-DRB5" "MPZ"      "C19orf80" "CSRP1"    "CTHRC1"   "C10orf10" "DDIT4"   
[29] "HSPB7"    "RBP4"    
[1] ""
[1] ""
[1] "PC5"
 [1] "SFRP2"   "OGN"     "C8orf4"  "UPK3B"   "CCL21"   "IFI6"    "NR1D1"   "PI16"   
 [9] "MSLN"    "HBA2"    "ISG15"   "HSPA1B"  "GREM1"   "HSPA1A"  "LY6E"    "KRT19"  
[17] "MYOC"    "MUSTN1"  "HBB"     "SLC40A1" "ITLN1"   "HBD"     "CRABP2"  "CPXM1"  
[25] "PTGDS"   "COL1A1"  "PCOLCE"  "CNN1"    "CXCL14"  "SLPI"   
[1] ""
 [1] "MT1X"    "MT1A"    "MT1M"    "MT2A"    "MT1E"    "LEP"     "SAA2"    "MT1G"   
 [9] "MMP19"   "HSPB7"   "IL6"     "FOSB"    "CYP4B1"  "GLUL"    "PFKFB3"  "PTX3"   
[17] "CD163"   "SAA1"    "GPX3"    "CXCL2"   "FASN"    "LIF"     "ADAMTS4" "PIM1"   
[25] "CCL2"    "SOCS3"   "THBS1"   "NAMPT"   "CES1"    "IL8"    
[1] ""
[1] ""
PCElbowPlot(merged)

DimPlot(merged, group.by='orig.ident')

subset <- SubsetData(merged, cells.use=rownames(merged@meta.data)[merged@meta.data$orig.ident != 'GTEx'])
saveRDS(subset, '../output/bulk-sc180831-oxidative.ECM-merged')

Add GTEx data.

merged_all <- MergeSeurat(merged, gtex_adipose)
Performing log-normalization
0%   10   20   30   40   50   60   70   80   90   100%
[----|----|----|----|----|----|----|----|----|----|
**************************************************|
saveRDS(merged, file='../output/bulk-sc180831-oxidative.ECM-GTEx-merged')

Alignment

Bulk + oxidative/ECM top cells

#combine State.old.labels with type bulk
merged_bulk.topcells@meta.data['state_type_combined'] <- merged_bulk.topcells@meta.data$type
labels <- merged_bulk.topcells@meta.data$State.old.labels
merged_bulk.topcells@meta.data$state_type_combined[!is.na(labels)] <- labels[!is.na(labels)]
TSNEPlot(merged_bulk.topcells, group.by='state_type_combined')

TSNEPlot(merged_bulk.topcells, group.by='orig.ident')

Bulk + GTEx

Bulk + oxidative/ECM top cells + GTEx

---
title: "R Notebook"
output: html_notebook
---

```{r}
library(Seurat)
library(plyr)
library('biomaRt')
data <- readRDS('../output/10x-180831')
```

Data loading

```{r}
bulk.df <- read.table('../data/181128_All-data-cells-for-pascal.txt', sep='\t', header=T, stringsAsFactors = F, row.names=1, check.names=F)
```

Function from PT to map gene symbols to ensembl ID's. 

```{r}
hs_add_gene_symbol_from_ensembl_ids <- function(df, colname_geneids_from="gene", colname_geneids_to="ensembl_gene_id") {
  ### INPUT df: a tibble/data.frame with the column 'colname_geneids_from' with human ensembl gene ids.
  ### OUTOUT df 
  # returns a tibble with human gene symbols added to the column 'colname_geneids_to'. 
  # Genes that did not map have NA values in the 'colname_geneids_to' column.
  # If there are duplicated gene IDs in 'colname_geneids_to', then all but the first of the duplicated elements will be marked as NA.
  
  df <- as.data.frame(df) # convert to df to ensure the the below operations work.
  
  file.mapping <- '/projects/pytrik/sc_adipose/analyze_10x_fluidigm/gene_mapping/gene_mapping.GRCh37.87/Homo_sapiens.GRCh37.87.gene_name_version2ensembl.txt'
  #file.mapping <- "/raid5/projects/timshel/sc-genetics/sc-genetics/data/gene_annotations/GRCh38.ens_v90.gene_name_version2ensembl.txt.gz"
  df.mapping <- suppressMessages(read_tsv(file.mapping))
  
  genes_mapped <- df.mapping$gene_name_optimal[match(df[,colname_geneids_from], df.mapping$ensembl_gene_id)]
  bool_dups <- duplicated(genes_mapped, incomparables=NA) # marks elements with smaller subscripts as duplicates
  # ^ incomparables=NA: 'excluding' NA when counting duplicated. NA values will not be compared. (That is, duplicated() returns FALSE for NA values)
  # ^ duplicated(c(1,1,2,NA,NA,NA)) returns FALSE  TRUE FALSE FALSE  TRUE  TRUE.
  # ^ duplicated(c(1,1,2,NA,NA,NA), incomparables=NA) returns FALSE  TRUE FALSE FALSE FALSE FALSE.
  print(sprintf("Number of genes mapped: %s",sum(!is.na(genes_mapped))))
  print(sprintf("Number of genes not mapped: %s",sum(is.na(genes_mapped)))) # number of not mapped genes
  print(sprintf("Number of genes with a NON-unique mapping (genes with duplicated ensembl gene IDs after mapping): %s",sum(bool_dups)))
  ### set duplicated rows (with smaller subscripts) as NA
  genes_mapped[bool_dups] <- NA
  print(sprintf("Total mapping stats: %s genes have no mapping (not mapped + duplicates) out of %s input genes.", sum(is.na(genes_mapped)), length(genes_mapped)))
  print(sprintf("Total genes mapped (non NA genes): %s", sum(!is.na(genes_mapped))))
  df <- df %>% mutate(!!rlang::sym(colname_geneids_to):=genes_mapped) %>% as.tibble()
  # filter(!is.na(gene)) %>% # remove all rows without mapping
  # filter(!duplicated(gene)) # keep only one of the duplicated pair (if any)
  print(sprintf("Returning tibble with the column '%s' added where all gene identifiers unique. Unmapped genes have NA values", colname_geneids_to))
  return(df)
}
```

Filter the bulk data and sc data to only contain genes that are present in both. First, convert rownames bulk data to gene symbols.

```{r}
ids2symbols <- hs_add_gene_symbol_from_ensembl_ids(data.frame(gene=rownames(bulk.df)), colname_geneids_to='gene_symbol')
```

```{r}
bulk.df.filtered <- bulk.df[!is.na(ids2symbols$gene_symbol),]
rownames(bulk.df.filtered) <- ids2symbols$gene_symbol[!is.na(ids2symbols$gene_symbol)]
```

Then filter 10x data and bulk data on intersecting genes.

```{r}
intersecting_genes <- unique(intersect(rownames(bulk.df.filtered), rownames(seurobj@raw.data)))
bulk.df.filtered2 <- bulk.df.filtered[which(rownames(bulk.df.filtered) %in% intersecting_genes),]
sc.df <- Read10X('/data/sc-10x/data-runs/171120-scheele-adipose/agg-180831-unnormalized/outs/filtered_gene_bc_matrices_mex/hg19/')
sc.df.filtered <- sc.df[which(rownames(sc.df) %in% intersecting_genes),]
sc.df.filtered.cols <- sc.df.filtered[,which(colnames(sc.df.filtered) %in% colnames(seurobj@data))]
```


```{r}
bulk <- CreateSeuratObject(bulk.df.filtered2, project='Bulk')
sc10x <- CreateSeuratObject(sc.df.filtered.cols, project='10x')
```


Add metadata

```{r}
x <- strsplit(rownames(bulk@meta.data), '\\.')
metadata <- data.frame(do.call(rbind, x))
bulk@meta.data$type <- tolower(metadata$X1)
bulk@meta.data$stimulated <- metadata$X3
bulk@meta.data$average <- metadata$X2
bulk <- SubsetData(bulk, cells.use=rownames(bulk)[bulk@meta.data$average != 'AVG'])
bulk@meta.data$average <- NULL
bulk@meta.data
```


```{r}
mito.genes <- grep(pattern = "^MT-", x = rownames(bulk@data), value = TRUE, ignore.case=TRUE)
percent.mito <- Matrix::colSums(bulk@raw.data[mito.genes,])/Matrix::colSums(bulk@raw.data)
bulk <- AddMetaData(bulk, metadata=percent.mito, col.name="percent.mito")
```

```{r}
bulk <- NormalizeData(bulk)
bulk <- ScaleData(bulk)
bulk <- FindVariableGenes(bulk)
bulk <- RunPCA(bulk)
```

```{r}
DimPlot(bulk, group.by='type')
```

```{r}
DimPlot(bulk, group.by='stimulated')
```

```{r}
type_stimulated_combined <- as.vector(apply(bulk@meta.data[,c('type', 'stimulated')], 1, function(x){
  return(paste(x[['type']], x[['stimulated']], sep='.'))
}))
bulk@meta.data['type_stimulated_combined'] <- type_stimulated_combined
```

```{r}
DimPlot(bulk, group.by='type_stimulated_combined', pt.size=2)
```


```{r}
#saveRDS(bulk, '../output/bulk-seurat')
```


Add metadata to sc10x Seurat object. 

```{r}
sc10x <- AddMetaData(sc10x, seurobj@meta.data)
```

```{r}
#saveRDS(sc10x, '../output/10x-180831-filtered-genes-bulk')
```

#Bulk and sc data merged

Performed preprocessing (normalization, scaling, PCA, t-SNE) on the merged Seurat object (bulk + sc)

```{r}
merged <- readRDS('../output/bulk-sc180831-merged')
TSNEPlot(merged, group.by='timepoint')
```

```{r}
DimPlot(merged, reduction.use='pca', group.by='timepoint', pt.size=1)
```

```{r}
DimPlot(merged, reduction.use='pca', group.by='type', pt.size=1)
```


```{r}
DimPlot(merged, reduction.use='pca', group.by='stimulated', pt.size=1)
```

Aligned.

```{r}
merged_aligned <- readRDS('../output/bulk-sc180831-merged-aligned')
TSNEPlot(merged_aligned, group.by='timepoint')
```

```{r}

```


#GTEx

```{r}
load('/data/rna-seq/gtex/v7-seurat_objs/gtex.seurat_obj.gene_tpm.RData')
```


```{r}
table(seurat_obj@meta.data$SMTS)
```

```{r}
table(seurat_obj@meta.data$SMTSD)
```

```{r}
gtex_adipose <- SubsetData(seurat_obj, cells.use=rownames(seurat_obj@meta.data)[seurat_obj@meta.data$SMTS == 'Adipose Tissue'])

gtex_adipose_df <- gtex_adipose@raw.data
gtex_adipose_df <- gtex_adipose_df[,which(colnames(gtex_adipose@raw.data) %in% colnames(gtex_adipose@data))]

### CONVERT ID's TO SYMBOLS
ids2symbols <- hs_add_gene_symbol_from_ensembl_ids(data.frame(gene=rownames(gtex_adipose_df)), colname_geneids_to='gene_symbol')

gtex_adipose.filtered <- gtex_adipose_df[!is.na(ids2symbols$gene_symbol),]

rownames(gtex_adipose.filtered) <- ids2symbols$gene_symbol[!is.na(ids2symbols$gene_symbol)]

gtex_adipose.filtered2 <- gtex_adipose.filtered[rownames(gtex_adipose.filtered) %in% rownames(bulk@data),]

#Create Seurat object GTEx
gtex <- CreateSeuratObject(gtex_adipose.filtered2, project='GTEx')
```

```{r}
gtex <- AddMetaData(gtex, gtex_adipose@meta.data)
table(gtex@meta.data$SMTSD)
```

```{r}
gtex <- NormalizeData(gtex)
gtex <- FindVariableGenes(gtex)
gtex <- ScaleData(gtex)
gtex <- RunPCA(gtex)
DimPlot(gtex, group.by='SMTSD')
```

```{r}
merged_bulk_gtex <- MergeSeurat(bulk, gtex, )
```

```{r}
merged_bulk_gtex <- ScaleData(merged_bulk_gtex)
merged_bulk_gtex <- FindVariableGenes(merged_bulk_gtex)
merged_bulk_gtex <- RunPCA(merged_bulk_gtex)
```

```{r}
DimPlot(merged_bulk_gtex, group.by='orig.ident')
```

```{r}
merged_bulk_gtex@meta.data$orig.ident[merged_bulk_gtex@meta.data$orig.ident == 'SeuratProject'] <- 'GTEx'
```

```{r}
saveRDS(merged_bulk_gtex, '../output/bulk-gtex-merged')
```

Merge with 10x data

```{r}
#TODO for bulk analysis:
#Create subset of 10x-180831 data: 100 cells from oxidative, 100 cells from ECM branch. Then align with bulk and GTEx.
subset <- SubsetData(seurobj, cells.use=rownames(seurobj@meta.data)[seurobj@meta.data$branch_high_res == 'ECM_top10' | seurobj@meta.data$branch_high_res == 'oxidative_top10'])
```

```{r}
merged <- MergeSeurat(subset, merged_bulk_gtex)
merged <- FindVariableGenes(merged)
merged <- ScaleData(merged)
merged <- RunPCA(merged)
PCElbowPlot(merged)
```

```{r}
DimPlot(merged, group.by='orig.ident')
```

```{r}
subset <- SubsetData(merged, cells.use=rownames(merged@meta.data)[merged@meta.data$orig.ident != 'GTEx'])
saveRDS(subset, '../output/bulk-sc180831-oxidative.ECM-merged')
```

Add GTEx data.

```{r}
gtex_adipose@meta.data$orig.ident <- 'GTEx'
merged_all <- MergeSeurat(merged, gtex_adipose)
```

```{r}
saveRDS(merged, file='../output/bulk-sc180831-oxidative.ECM-GTEx-merged')
```

#Alignment

Bulk + oxidative/ECM top cells

```{r}
merged_bulk.topcells <- readRDS('../output/bulk-sc180831-oxidative.ECM-merged-aligned')
```

```{r fig1, fig.height=10, fig.width=12, fig.align="center"}
plot_grid(
  TSNEPlot(merged_bulk.topcells, group.by='orig.ident'),
  TSNEPlot(merged_bulk.topcells, group.by='timepoint'),
  TSNEPlot(merged_bulk.topcells, group.by='State.old.labels'),
  TSNEPlot(merged_bulk.topcells, group.by='type')
)
```

```{r}
#combine State.old.labels with type bulk
merged_bulk.topcells@meta.data['state_type_combined'] <- merged_bulk.topcells@meta.data$type
labels <- merged_bulk.topcells@meta.data$State.old.labels
merged_bulk.topcells@meta.data$state_type_combined[!is.na(labels)] <- labels[!is.na(labels)]

TSNEPlot(merged_bulk.topcells, group.by='state_type_combined')
```

```{r fig2, fig.height=7, fig.width=8, fig.align="center"}
plot_grid(
  DimPlot(merged_bulk.topcells, cells.highlight=rownames(merged_bulk.topcells@meta.data)[merged_bulk.topcells@meta.data$state_type_combined == 'brown'], cols.use=c('gray', 'blue'), cols.highlight = 'blue', reduction.use='tsne', sizes.highlight = 5),
  DimPlot(merged_bulk.topcells, cells.highlight=rownames(merged_bulk.topcells@meta.data)[merged_bulk.topcells@meta.data$state_type_combined == 'white'], cols.use=c('gray', 'blue'), cols.highlight = 'blue', reduction.use='tsne', sizes.highlight = 5),
  DimPlot(merged_bulk.topcells, cells.highlight=rownames(merged_bulk.topcells@meta.data)[merged_bulk.topcells@meta.data$stimulated == 'Non'], cols.use=c('gray', 'blue'), cols.highlight = 'blue', reduction.use='tsne', sizes.highlight = 5),
  DimPlot(merged_bulk.topcells, cells.highlight=rownames(merged_bulk.topcells@meta.data)[merged_bulk.topcells@meta.data$stimulated == 'NE-stim'], cols.use=c('gray'), cols.highlight = 'blue', reduction.use='tsne', sizes.highlight = 5), labels=c('bulk brown', 'bulk white', 'Non-stimulated', 'NE-stimulated')
)

```


```{r}
TSNEPlot(merged_bulk.topcells, group.by='orig.ident')
```

Bulk + GTEx

```{r}
bulk.gtex.aligned <- readRDS('../output/bulk-gtex-merged-aligned')
TSNEPlot(bulk.gtex.aligned, group.by='orig.ident')
```

```{r}
bulk.gtex.aligned@meta.data['types_combined'] <- bulk.gtex.aligned@meta.data$type
labels <- bulk.gtex.aligned@meta.data$SMTSD
bulk.gtex.aligned@meta.data$types_combined[!is.na(labels)] <- labels[!is.na(labels)]
TSNEPlot(bulk.gtex.aligned, group.by='types_combined')
```




Bulk + oxidative/ECM top cells + GTEx

```{r}

```

